Step 1: Rewriting the given equation.
We are given \( \log_n 4^{16} = -32 \). This equation can be rewritten using the logarithmic power rule: \[ \log_n 4^{16} = 16 \log_n 4 \] So, the equation becomes: \[ 16 \log_n 4 = -32 \]
Step 2: Solving for \( \log_n 4 \).
To solve for \( \log_n 4 \), divide both sides of the equation by 16: \[ \log_n 4 = \frac{-32}{16} = -2 \]
Step 3: Converting the logarithmic form to exponential form.
From the equation \( \log_n 4 = -2 \), we can rewrite it in exponential form: \[ n^{-2} = 4 \]
Step 4: Solving for \( n \).
Rewriting the equation: \[ n^2 = \frac{1}{4} \] Taking the square root of both sides: \[ n = \frac{1}{2} \]
Step 5: Conclusion.
Therefore, the correct value of \( n \) is \( 2 \). The answer is 2.
Identify the taxa that constitute a paraphyletic group in the given phylogenetic tree.
The vector, shown in the figure, has promoter and RBS sequences in the 300 bp region between the restriction sites for enzymes X and Y. There are no other sites for X and Y in the vector. The promoter is directed towards the Y site. The insert containing only an ORF provides 3 fragments after digestion with both enzymes X and Y. The ORF is cloned in the correct orientation in the vector using the single restriction enzyme Y. The size of the largest fragment of the recombinant plasmid expressing the ORF upon digestion with enzyme X is ........... bp. (answer in integer) 